Calculating Inclination of an Air Hockey Table

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SUMMARY

The discussion centers on calculating the inclination of an air hockey table based on the observed drift of a puck. The physics student determines that the puck, traveling at a constant velocity of 3.86 m/s over a distance of 1.79 m, drifts 2.40 cm to the right due to the table's incline. This drift indicates that the table is not level, and the student correctly concludes that the net force acting on the puck is gravity, which influences its lateral movement without affecting its velocity along the table's length.

PREREQUISITES
  • Understanding of Newton's laws of motion
  • Familiarity with concepts of frictionless surfaces
  • Knowledge of vector components of velocity
  • Basic principles of inclined planes in physics
NEXT STEPS
  • Study the relationship between force and motion in inclined planes
  • Learn about vector decomposition in physics
  • Explore the effects of gravity on objects in motion
  • Investigate the principles of frictionless motion and its applications
USEFUL FOR

Physics students, educators, and anyone interested in understanding the dynamics of motion on inclined surfaces, particularly in relation to practical applications like air hockey tables.

Aiko
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Homework Statement


A physics student playing with an air hockey table (a frictionless surface) finds that if she gives the puck a velocity of 3.86 m/s along the length ( 1.79 m) of the table at one end, by the time it has reached the other end the puck has drifted a distance 2.40 cm to the right but still has a velocity component along the length of 3.86 m/s. She concludes correctly that the table is not level and correctly calculates its inclination from the above information.


Homework Equations





The Attempt at a Solution


I don't know how to relate velocity to force. The velocity is constant so all net force equations equal to zero. I have no clue how to really start.
 
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No there is a net force which pulls the puck to the right as it reaches the end of the table. The reason why the net force (gravity) doesn't affect the velocity of the puck is because it acts sideways to the velocity of travel of the puck, much like in circular motion.
 
Defennder said:
No there is a net force which pulls the puck to the right as it reaches the end of the table. The reason why the net force (gravity) doesn't affect the velocity of the puck is because it acts sideways to the velocity of travel of the puck, much like in circular motion.

If I set the coordinate system on the puck (which is on an incline plane), the force of gravity would be the only force acting on it in the x-direction, thus why it moves. Would it equal to zero or ma? It has a constant velocity in one direction.
 

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